HomeCategoriesLong-Duration Spaceflight Physiology

🚀 Long-Duration Spaceflight Physiology

This simulation explores the physiological effects of long-duration spaceflight on the human body. It covers various aspects such as muscle atrophy, bone density loss, cardiovascular changes, and immune system alterations. Users can interact with models to understand how these factors affect astronauts during extended missions in microgravity.

14 simulations60 fps real-time0 install steps
Scaffold-Free Tissue Self-Assembly in MicrogravityNewWatch cell spheroids in a virtual bioreactor fuse into a scaffold-free 3D tissue construct… EVA Glove Grip Fatigue SimulatorNewA 3D model of pressurized-glove joint resistance and Rohmert-style muscle fatigue: tune suit… Spaceflight Hypercalciuria & Kidney Stone RiskNewInteractive 3D model tracing microgravity bone resorption to elevated urinary calcium,… Post-Flight Reconditioning TimelineNewInteractive 3D simulator of an astronaut's post-landing rehabilitation: cardiovascular,… CO2 Pocket at the Sleep StationNewModel exhaled carbon dioxide pooling around a sleeping astronaut's head in microgravity,… Microgravity Bone Density Loss CountermeasureNewThis simulation focuses on the loss of bone density in microgravity environments and… Spaceflight-Associated Neuro-Ocular Syndrome SimulatorNewThis simulation explores the Spaceflight-Associated Neuro-Ocular Syndrome, which includes… Muscle Atrophy Resistance Exercise Protocol in OrbitNewThis protocol outlines resistance exercise routines designed to prevent muscle atrophy in… Cosmic Radiation Cumulative Dose Career Limit TrackerNewThis simulation tracks the cumulative dose of cosmic radiation an astronaut is exposed to… Circadian Rhythm Disruption in Orbital Light CycleNewThis simulation examines the disruption of circadian rhythms caused by a 90-minute orbital… Closed-Loop Life Support Pharmaceutical StabilityNewThis simulation investigates the stability of pharmaceuticals in a closed-loop life support… Space-Induced Immune Dysregulation SimulatorNewThe simulation models the immune dysregulation experienced by astronauts under the influence…
Fluid Shift Cardiovascular Deconditioning in MicrogravityNewThis simulation examines the effects of fluid shift and cardiovascular deconditioning on… Psychological Isolation Confinement Countermeasure DesignNewThe simulation designs countermeasures to address psychological isolation for long-duration…
About the category

Long-Duration Spaceflight Physiology

This simulation explores the physiological effects of long-duration spaceflight on the human body. It covers various aspects such as muscle atrophy, bone density loss, cardiovascular changes, and immune system alterations. Users can interact with models to understand how these factors affect astronauts during extended missions in microgravity.

Three.js · WebGL 60 FPS CC BY 4.0
Quick facts
14interactive simulations in this category
runs at 60 FPS in any modern browser
🌐English, Ukrainian, Polish, Spanish, German, Japanese, Italian, Portuguese (Brazil), French, Arabic, Dutch, Chinese, Korean, Hindi, Turkish, Vietnamese, Russian, Indonesian, Persian, Bengali, Thai, Filipino, Swahili, Urdu, Malay, Tamil, Hebrew, Greek, Punjabi, Amharic, Burmese, Khmer, Georgian, Nepali, Mongolian, Armenian, Sinhala, Lao, Czech, Romanian, Hungarian, Bulgarian, Swedish, Danish, Finnish, Norwegian, Slovak, Croatian, Serbian, Slovenian, Lithuanian, Latvian, Estonian, Icelandic, Albanian, Macedonian, Bosnian, and Maltese
🎓CC BY 4.0 — free for classrooms and LMS embeds

Frequently asked questions

Do I need to install anything to run Long-Duration Spaceflight Physiology simulations?

No. Everything runs entirely in your browser — no downloads, plugins or accounts. Works in Chrome, Firefox, Edge and Safari; most simulations also work on mobile.

Can I use these simulations for teaching?

Yes — all content is free for educational use under CC BY 4.0. Link to any simulation directly or embed it in your LMS with an iframe; no API key required.

Are the models scientifically accurate?

They use the same mathematical formulations as professional software, integrated numerically in real time. Each simulation lists its algorithms, and many link to an article explaining the mathematics.

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